The reigning world champ in supercomputing, China’s Tianhe-2, may get
knocked off, if IARPA accomplishes its goal of creating a new supercomputer
capable of beyond exaflop speeds.
by John
Tyburski
Copyright © Daily
Digest News, KPR Media, LLC. All rights reserved.
Researchers
with Intelligence Advanced Research Projects Activity (IARPA) are seeking to
break the exaflop barrier in their effort to create a supercomputer with the
power and cooling capacities beyond anything in existence today.
The
fastest supercomputer on the planet right now is Tianhe-2, which
was developed by China’s National University of Defense Technology. Tianhe-2 is
capable of performing at 33.86 petaflops, which is in the range of quadrillions
of calculations, in every second. One exaflop is 1,000 petaflops and is
equivalent to a quintillion calculations per second. According to a recent article
published in ComputerWorld, exaflop speed is the next big goal in supercomputing.
This week,
IARPA, which is housed in the Office of the Director of National Intelligence,
awarded funding of undisclosed amounts to IBM, Northrop Grumman, and
Raytheon-BBN to begin working on what the group calls Cryogenic Computer
Complexity, or C3.
“The
power, space, and cooling requirements for current supercomputers based on
[CMOS] technology are becoming unmanageable,” said Marc Manheimer, C3 program
manager at IARPA, in a statement.
“Computers based on superconducting logic integrated with new kinds of
cryogenic memory will allow expansion of current computing facilities while
staying within space and energy budgets, and may enable supercomputer development
beyond the exascale.”
The C3
program is expected to be a five-year, two-phase endeavor. Phase one will occur
in the first three years and will consist of developing or demonstrating a
small superconducting processor. Phase two will follow over the final two years
and will involve the integration of the new technologies into a small-scale
working superconducting computer model.
Key
components of the C3 project are cryogenic memory for greatly improved energy
efficiency and data capacity and advanced superconducting circuits integrated
with memory and other components in a superconducting computer in order to
assess performance metrics.
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